100% Juniper JN0-650 Guaranteed Success With Testking Training Materials

This other case would be better matched to Advertise a BGP EVPN MAC/IP Type 2 route for the endpoint. Remote peers can learn host reachability without relying solely on data-plane flooding.

This other case would be better matched to Configure the same supported Ethernet segment identifier for the intended multihoming pair. EVPN peers can recognize the dual-connected links as one Ethernet segment.

This other case would be better matched to Assign appropriate route distinguishers to uniquely identify EVPN routes. Otherwise identical tenant reachability can remain distinct in the BGP EVPN control plane.

That action targets EVPN route target import: Only EVPN routes carrying permitted targets are imported into the intended service instance. It does not directly resolve the stated EVPN control plane discovery requirement.

That action targets EVPN Type 1 Ethernet discovery: Remote EVPN peers can learn the Ethernet segment's auto-discovery reachability. It does not directly resolve the stated EVPN control plane discovery requirement.

That action targets EVPN Type 3 inclusive multicast: Remote VTEPs can learn members of the broadcast unknown-unicast multicast delivery set. It does not directly resolve the stated EVPN control plane discovery requirement.

This outcome is associated with EVPN Type 3 inclusive multicast (Use EVPN Type 3 inclusive multicast Ethernet tag route signaling.), not the specified action.

This outcome is associated with EVPN Type 1 Ethernet discovery (Use Ethernet auto-discovery EVPN Type 1 route signaling.), not the specified action.

This outcome is associated with EVPN route target import (Use matching BGP route-target import and export policies for the tenant service.), not the specified action.

That alternative applies to EVPN Type 1 Ethernet discovery instead. Remote EVPN peers can learn the Ethernet segment's auto-discovery reachability.

That alternative applies to EVPN Type 3 inclusive multicast instead. Remote VTEPs can learn members of the broadcast unknown-unicast multicast delivery set.

That alternative applies to EVPN route target import instead. Only EVPN routes carrying permitted targets are imported into the intended service instance.

This other case would be better matched to Use EVPN Type 3 inclusive multicast Ethernet tag route signaling. Remote VTEPs can learn members of the broadcast unknown-unicast multicast delivery set.

This other case would be better matched to Use matching BGP route-target import and export policies for the tenant service. Only EVPN routes carrying permitted targets are imported into the intended service instance.

This other case would be better matched to Use Ethernet auto-discovery EVPN Type 1 route signaling. Remote EVPN peers can learn the Ethernet segment's auto-discovery reachability.

That action targets EVPN Type 2 MAC IP route: Remote peers can learn host reachability without relying solely on data-plane flooding. It does not directly resolve the stated EVPN ESI identification requirement.

That action targets EVPN BGP route distinguisher: Otherwise identical tenant reachability can remain distinct in the BGP EVPN control plane. It does not directly resolve the stated EVPN ESI identification requirement.

That action targets EVPN MAC mobility: Remote peers can update forwarding toward the new MAC location. It does not directly resolve the stated EVPN ESI identification requirement.

This outcome is associated with EVPN BGP route distinguisher (Assign appropriate route distinguishers to uniquely identify EVPN routes.), not the specified action.

This outcome is associated with EVPN MAC mobility (Use EVPN MAC mobility signaling and appropriate sequence handling for the moved endpoint.), not the specified action.

This outcome is associated with EVPN Type 2 MAC IP route (Advertise a BGP EVPN MAC/IP Type 2 route for the endpoint.), not the specified action.

That alternative applies to EVPN BGP route distinguisher instead. Otherwise identical tenant reachability can remain distinct in the BGP EVPN control plane.

That alternative applies to EVPN Type 2 MAC IP route instead. Remote peers can learn host reachability without relying solely on data-plane flooding.

That alternative applies to EVPN MAC mobility instead. Remote peers can update forwarding toward the new MAC location.

This other case would be better matched to Advertise a BGP EVPN MAC/IP Type 2 route for the endpoint. Remote peers can learn host reachability without relying solely on data-plane flooding.

This other case would be better matched to Assign appropriate route distinguishers to uniquely identify EVPN routes. Otherwise identical tenant reachability can remain distinct in the BGP EVPN control plane.

This other case would be better matched to Use EVPN MAC mobility signaling and appropriate sequence handling for the moved endpoint. Remote peers can update forwarding toward the new MAC location.

That action targets EVPN designated forwarder: BUM traffic toward the segment can be controlled so redundant peers avoid duplicate delivery. It does not directly resolve the stated VXLAN VNI mapping requirement.

That action targets All-active EVPN multihoming: Both active attachment links can participate in forwarding under the supported design. It does not directly resolve the stated VXLAN VNI mapping requirement.

That action targets VXLAN transport encapsulation: The routed IP fabric can transport tenant Layer 2 traffic between VTEPs. It does not directly resolve the stated VXLAN VNI mapping requirement.

This outcome is associated with All-active EVPN multihoming (Enable a supported all-active EVPN multihoming service with appropriate link aggregation.), not the specified action.

This outcome is associated with EVPN designated forwarder (Use EVPN designated-forwarder election for the relevant Ethernet segment and service.), not the specified action.

This outcome is associated with VXLAN transport encapsulation (Encapsulate the tenant Ethernet frame in VXLAN over UDP/IP at the source VTEP.), not the specified action.